Cradle to Gate
Identity ID
aa508258-e6cf-4864-b96c-23c68cefbdeb
Materials
Associated ID
ccb6f6de-a981-4e95-9c5d-d141af3b26cb
Included activities starts
Included activities ends
Description
Pig iron typically refers to the iron product produced in a blast furnace, primarily composed of iron and carbon compounds. The carbon content in pig iron usually ranges between 2% and 4%, along with small amounts of impurity elements such as silicon, manganese, and phosphorus. Pig iron is widely used in the metallurgical industry for applications including steel production, casting, and steelmaking. This dataset represents a cradle-to-gate life cycle inventory. The life cycle inventory is compiled from data sourced from multiple origins.
Activity Description
The process of producing pig iron in a blast furnace includes raw material proportioning, charging, ironmaking, and slag discharge. Raw materials are charged into the blast furnace in a specific ratio, and coke burns inside the furnace to generate high temperatures, reducing iron ore into iron. The reduction reactions within the blast furnace proceed under high temperature, producing molten pig iron and slag. This process encompasses energy consumption, material consumption, waste disposal, and environmental impacts associated with pig iron production.
Process Description
Pig iron is a metallic iron product obtained by smelting iron ore in a blast furnace. It is the primary output of iron ore smelting and mainly consists of iron and carbon compounds. The carbon content in pig iron typically ranges from 2% to 4%, and it also contains small amounts of impurities such as silicon, manganese, and phosphorus. Pig iron is widely used in the metallurgical industry for manufacturing steel, casting, and steelmaking processes.
Time period
2021
2026
Geography
China
Macroeconomic value
Business-as-Usual
Data validation
Yes
Technology
Current Technology
Technology comment
Blast furnace ironmaking is a common metallurgical process used to convert iron ore into pig iron. Inside the blast furnace, layered charging and the combustion of coke generate high temperatures, reducing iron oxides in the ore to metallic iron. The furnace design ensures efficient material and gas flow and heat exchange within the furnace, while precise process control optimizes ironmaking efficiency and reduces energy consumption.